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(N/A) Ideal gasReal gas$(1)$ It satisfies $PV = \mu RT$ for all temperatures and pressures.$(1)$ It does not satisfy $PV = \mu RT$ for all temperature

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(N/A) Ideal gasReal gas$(1)$ It satisfies $PV = \mu RT$ for all temperatures and pressures.$(1)$ It does not satisfy $PV = \mu RT$ for all temperatures and pressures.$(2)$ The volume of molecules of an ideal gas is considered zero.$(2)$ The volume of molecules of real gases is not zero.$(3)$ In an ideal gas, no intermolecular forces act between molecules.$(3)$ Depending on the distance between molecules, attractive or repulsive forces act between them.$(4)$ Interatomic force is zero, hence potential energy is zero.$(4)$ Interatomic force is not zero, hence potential energy is not zero.$(5)$ Possesses only kinetic energy.$(5)$ Possesses both kinetic energy and potential energy.$(6)$ At absolute zero, the volume, pressure, and internal energy of an ideal gas become zero.$(6)$ All real gases liquefy before reaching absolute zero, and the internal energy in the liquid state is not zero.

State the differences between an ideal gas and a real gas.

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Ideal gas	Real gas
$(1)$ It satisfies $PV = \mu RT$ for all temperatures and pressures.	$(1)$ It does not satisfy $PV = \mu RT$ for all temperatures and pressures.
$(2)$ The volume of molecules of an ideal gas is considered zero.	$(2)$ The volume of molecules of real gases is not zero.
$(3)$ In an ideal gas, no intermolecular forces act between molecules.	$(3)$ Depending on the distance between molecules, attractive or repulsive forces act between them.
$(4)$ Interatomic force is zero, hence potential energy is zero.	$(4)$ Interatomic force is not zero, hence potential energy is not zero.
$(5)$ Possesses only kinetic energy.	$(5)$ Possesses both kinetic energy and potential energy.
$(6)$ At absolute zero, the volume, pressure, and internal energy of an ideal gas become zero.	$(6)$ All real gases liquefy before reaching absolute zero, and the internal energy in the liquid state is not zero.